Search Results - "Inaniwa T"

Influence of nuclear interactions in body tissues on tumor dose in carbon-ion radiotherapy.

Authors: Inaniwa, T. Kanematsu, N. Tsuji, H. et al.

Source: Medical Physics. Dec2015, Vol. 42 Issue 12, p7132-7137. 6p.

Subjects: Head & neck cancer diagnosis, Head & neck cancer treatment, Cancer radiotherapy, Radiation doses, Carbon, Medical errors

Application of an SOI Microdosimeter for Monitoring of Neutrons in Various Mixed Radiation Field Environments.

Authors: Pan, V. A. Vohradsky, J. James, B. et al.

Source: IEEE Transactions on Nuclear Science; Mar2022, Vol. 69 Issue 3, p491-500, 10p

Measurements of deposited dose with induced β⁺ activity in proton and heavy-ion therapy

Authors: Inaniwa, T. Kohno, T. Tomitani, T. et al.

Source: Nuclear Instruments & Methods in Physics Research Section A. Oct2007, Vol. 580 Issue 2, p1140-1143. 4p.

Subjects: Cancer treatment, Intermediates (Chemistry), Irradiation, Electrons

Design study of a rotating gantry for the HIMAC new treatment facility

Authors: Furukawa, T. Inaniwa, T. Sato, S. et al.

Source: Nuclear Instruments & Methods in Physics Research Section B. May2008, Vol. 266 Issue 10, p2186-2189. 4p.

Subjects: Carbon, Ions, Therapeutics, Irradiation

Variation in patient position and impact on carbon-ion scanning beam distribution during prostate treatment.

Authors: MORI, S. INANIWA, T. MIKI, K. et al.

Source: British Journal of Radiology. Jul2015, Vol. 88 Issue 1051, p1-7. 7p.

Implementation of a target volume design function for intrafractional range variation in a particle beam treatment planning system.

Authors: MORI, S. INANIWA, T. MIKI, K. et al.

Source: British Journal of Radiology. Nov2014, Vol. 87 Issue 1043, p1-8. 8p.

Measurement of neutron ambient dose equivalent in carbon-ion radiotherapy with an active scanned delivery system.

Authors: Yonai, S. Furukawa, T. Inaniwa, T.

Source: Radiation Protection Dosimetry; Oct2014, Vol. 161 Issue 1-4, p433-436, 4p

Development of Fast Scanning Magnets and Their Power Supply for Particle Therapy.

Authors: Furukawa, T. Shirai, T. Inaniwa, T. et al.

Source: IEEE Transactions on Applied Superconductivity; Jun2014, Vol. 24 Issue 3, p1-4, 4p

Effects of a difference in respiratory cycle between treatment planning and irradiation for phase-controlled rescanning and carbon pencil beam scanning.

Authors: MORI, S. INANIWA, T. FURUKAWA, T. et al.

Source: British Journal of Radiology. Aug2013, Vol. 86 Issue 1028, p1-9. 9p.

Application of MLE method to range determination with induced β⁺ activity in hadron therapy

Authors: Inaniwa, T. Kohno, T. Tomitani, T. et al.

Source: Nuclear Instruments & Methods in Physics Research Section A. Jun2006, Vol. 562 Issue 2, p1017-1019. 3p.

Subjects: Ions, Irradiation, Electrons, Properties of matter

Synchrotron-based infrared microspectroscopy unveils the biomolecular response of healthy and tumour cell lines to neon minibeam radiation therapy.

Authors: González-Vegas, R. Seksek, O. Bertho, A. et al.

Source: Analyst. 1/21/2025, Vol. 150 Issue 2, p342-352. 11p.

A fluorescent screen+CCD system for quality assurance of therapeutic scanned ion beams

Authors: Takeshita, E. Furukawa, T. Inaniwa, T. et al.

Source: Nuclear Instruments & Methods in Physics Research Section B. Dec2011, Vol. 269 Issue 24, p2936-2940. 5p.

Subjects: Ion bombardment, Charge coupled devices, Fluorescence, Radiotherapy, Luminance (Photometry), Scanning systems, Prototypes

Correction: Synchrotron-based infrared microspectroscopy unveils the biomolecular response of healthy and tumour cell lines to neon minibeam radiation therapy.

Authors: González-Vegas, R. Seksek, O. Bertho, A. et al.

Source: Analyst. 1/5/2026, Vol. 151 Issue 1, p259-259. 1p.

Development of simple proton CT system with novel correction methods of proton scattering.

Authors: Takabe, M. Masuda, T. Arimoto, M. et al.

Source: Nuclear Instruments & Methods in Physics Research Section A. Apr2019, Vol. 924, p332-338. 7p.

Spatially resolved measurement of wideband prompt gamma-ray emission toward on-line monitor for the future proton therapy.

Authors: Koide, A. Kataoka, J. Taya, T. et al.

Source: Nuclear Instruments & Methods in Physics Research Section A. Dec2018, Vol. 912, p24-28. 5p.

Electron density estimation using MPPC-based photon-counting CT for radiation therapy planning.

Authors: Sagisaka, M. Minagawa, R. Kataoka, J. et al.

Source: Nuclear Instruments & Methods in Physics Research Section A. Aug2024, Vol. 1065, pN.PAG-N.PAG. 1p.

Commissioning of full energy scanning irradiation with carbon-ion beams ranging from 55.6 to 430 MeV/u at the NIRS-HIMAC.

Authors: Hara, Y. Furukawa, T. Mizushima, K. et al.

Source: Nuclear Instruments & Methods in Physics Research Section B. Sep2017 Part A, Vol. 406, p343-346. 4p.

Recent progress and future plans of heavy-ion cancer radiotherapy with HIMAC.

Authors: Noda, K. Furukawa, T. Fujimoto, T. et al.

Source: Nuclear Instruments & Methods in Physics Research Section B. Sep2017 Part A, Vol. 406, p374-378. 5p.

Development of NIRS pencil beam scanning system for carbon ion radiotherapy.

Authors: Furukawa, T. Hara, Y. Mizushima, K. et al.

Source: Nuclear Instruments & Methods in Physics Research Section B. Sep2017 Part A, Vol. 406, p361-367. 7p.

High-precision compton imaging of 4.4 MeV prompt gamma-ray toward an on-line monitor for proton therapy.

Authors: Mochizuki, S. Kataoka, J. Koide, A. et al.

Source: Nuclear Instruments & Methods in Physics Research Section A. Aug2019, Vol. 936, p43-45. 3p.